This case study aims to investigate how locally additively manufactured functional parts can make African metrology institutes more sustainable and independent. These institutes…
Abstract
Purpose
This case study aims to investigate how locally additively manufactured functional parts can make African metrology institutes more sustainable and independent. These institutes provide calibration services, which links the measurement units to industrial and everyday measurements. This traceability is critical to overcome technical barriers to trade and industrialisation. Most African countries have such a designated institute that requires advanced scientific instrumentation. These instruments are custom-built for a specific application, hard to procure or sometimes obsolete. Servicing these instruments or obtaining spare parts are also difficult. The purpose aims to evaluate if three-dimensional (3D) printing can significantly improve this situation, by providing six institutes with a 3D printer and training.
Design/methodology/approach
Therefore, a 3D printer pilot project was launched, involving six African metrology institutes, with the aim of developing the basic manufacturing capabilities of these institutes so that they can produce functional parts. The project included training on both digital part modelling and 3D printer usage. This case study reviews the technology selection method, project risks, needs, challenges and results, with the aid of research questions.
Findings
The results of the project illustrate how additive manufacturing (AM) has started to enable metrology in Africa and how it can be expanded to the general scientific endeavour on the continent.
Social implications
The success of this project can be used to motivate the further adoption of AM in African National Metrology Institutes, as well as other scientific institutes.
Originality/value
The project is the first AM project of its kind for African National Metrology Institutes.